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HS Code |
183949 |
| Iupac Name | N-(4-Chloro-2-methylphenyl)-N',N'-dimethylformamidine |
| Molecular Formula | C10H13ClN2 |
| Molecular Weight | 196.68 g/mol |
| Cas Number | 728-94-7 |
| Appearance | Yellow to brown crystalline solid |
| Melting Point | 62-65°C |
| Solubility In Water | Insoluble |
| Smiles | CN(C)C=NC1=C(C=C(C=C1)Cl)C |
| Inchi | InChI=1S/C10H13ClN2/c1-8-6-7-9(11)5-10(8)13-12(2)3/h5-7H,1-3H3 |
| Storage Temperature | Store at 2-8°C |
| Synonyms | N-(4-Chloro-o-tolyl)-N',N'-dimethylformamidine |
As an accredited N-(4-Chloro-2-Methylphenyl)-N',N'-Dimethylformamidine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle containing 25 grams, sealed with a screw cap and labeled with product name, hazard warnings, and manufacturer details. |
| Shipping | The shipping of **N-(4-Chloro-2-methylphenyl)-N',N'-dimethylformamidine** should comply with local and international transport regulations. The chemical must be packaged in tightly sealed containers, labeled correctly, and transported under conditions that prevent exposure or leaks. Handle as a hazardous material, avoiding extreme temperatures and ensuring protection from moisture and incompatible substances. |
| Storage | Store **N-(4-Chloro-2-Methylphenyl)-N',N'-Dimethylformamidine** in a tightly closed container, in a cool, dry, and well-ventilated area away from incompatible substances such as strong oxidizers and acids. Protect from light and moisture. Ensure that the storage area is equipped to handle chemical spills and complies with relevant safety regulations. Always label containers clearly and restrict access to trained personnel. |
Applications of N-(4-Chloro-2-Methylphenyl)-N',N'-Dimethylformamidine in Industrial ManufacturingN-(4-Chloro-2-Methylphenyl)-N',N'-Dimethylformamidine serves as a specialized intermediate in advanced chemical synthesis. We supply industry customers who require consistent quality and reliable delivery for volume manufacturing. Below are primary sectors and specific downstream use cases where our production teams see highest demand. 1. Agrochemical Synthesis: Herbicide Active Ingredient ManufacturingMajor herbicide producers incorporate this compound as a key intermediate in the formation of modern aryl formamidine-based herbicides. Production requires precise molar ratios and attentive process control, especially in the condensation and cyclization stages. The completed actives undergo formulation, wet-milling, and stabilization prior to co-formulant blending and packaging for field use. Operators must ensure raw material purity in line with regulatory certifications to meet export and market entry criteria. Industry compliance standards
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2. Pharmaceutical Intermediate in Sartan-Type Antihypertensive Drug ProductionAPI manufacturers use the material as a core intermediate for certain tetrazole-containing antihypertensive agents. The compound enters the process at the amidine coupling or formamidine condensation steps in multi-stage synthesis routes, requiring strict documentation and analytical verification per GMP. Accurate stoichiometry, solvent compatibility, and impurity tracking ensure process validation and successful scale-up to kilo-lab and commercial reactors. Finished APIs undergo micronization, quality release testing, and formulation into oral solid dose forms. Industry compliance standards
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3. Dye and Pigment Intermediate in Specialty Colorant ManufactureColorant and dye manufacturers use this chemical as an intermediate for the synthesis of complex azo and anthraquinone dyes, taking advantage of its electron-rich aromatic core and functional group compatibility. The compound participates in coupling reactions, particularly for the formation of high-stability, lightfast colorants needed in textile and ink applications. Color consistency and batch-to-batch reproducibility depend on precise dosing and validated process steps throughout the manufacturing campaign. Industry compliance standards
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4. Fine Chemical Synthesis: Agrochemical Research and Custom Molecule DevelopmentResearch divisions and custom-manufacturing clients order this intermediate for pilot-scale and new molecule development, especially for aryl formamidine scaffolds of agrochemical or pharmaceutical value. Typical projects involve optimizing cyclization, condensation, or rearrangement reactions to develop next-generation actives. The starting material specification follows detailed analytical certification since even minor impurities can distort kinetic profiles or cause unstable intermediates. This application emphasizes technical support and application-specific documentation to shorten time-to-market for new product launches. Industry compliance standards
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Over several decades in the chemical sector, we have devoted substantial resources to producing intermediates critical to crop protection, among which N-(4-Chloro-2-Methylphenyl)-N',N'-Dimethylformamidine stands out. This compound belongs to the formamidine family and features a specific molecular profile, making it a recognized intermediate for modern pesticide synthesis. Our manufacturing teams have watched demand for this chemical rise as agricultural research pushes for more efficient and less hazardous crop protection agents. Chemists working in our plants reference this material often when discussing advancements in active ingredient development.
The compound carries the structure C10H13ClN2. The methyl and chloro substituents on the phenyl ring confer unique properties and reactivity profiles, which many of our clients consider essential in synthesizing certain target molecules. Each batch emerges from dedicated lines using carefully controlled steps, minimizing cross-contamination with other aromatic compounds. Our lab teams use a combination of HPLC and NMR to confirm high purity—many production runs test above 99%. The dense, colorless or faintly yellow liquid we ship to agrochemical innovators worldwide represents strict attention applied at every stage, from raw material vetting to post-reaction crystallization.
Long before this amine turned into a staple at our facility, the industry faced obstacles with older intermediates—reactivity problems, impurity carryover, challenging purification steps. Synthetic routes using less sterically hindered or differently substituted aromatic rings frequently led to byproducts problematic for downstream steps. Once researchers and formulators began applying N-(4-Chloro-2-Methylphenyl)-N',N'-Dimethylformamidine, yields improved. We remember a wave of feedback in the early 2000s from technical teams at several customers, referencing higher selectivity and smoother integration into multi-step pesticide synthesis.
Talks with formulation scientists highlight the main draw: the particular arrangement of methyl and chloro groups allows for tighter control of reaction pathways. Not all intermediates lend themselves equally well to this end. Our production team notes the competitive drive among manufacturers in this niche—everyone strives to offer tighter particle size distributions, lower moisture, and increased stability under transport conditions. Yet, real-world use showcases more significant differences in performance attributed to the molecular structure rather than superficial lot-to-lot variations.
Pilot projects we ran in parallel with specialty agrochemical firms years ago pointed to smoother scale-up with this intermediate. Unlike other substituted anilines or simpler formamidines, this compound’s unique profile means less risk of side reactions under typical reaction conditions for triazine, pyrimidine, or pyrrole coupling. The main area of usage remains the synthesis of certain insecticides and fungicides—production specialists often cite the critical dependence on purity. We devoted much process engineering attention to reduce trace isomer contamination, as even low levels could diminish performance or increase degradation in finished products.
In practice, downstream partners find handling straightforward. Its liquid phase at ambient temperature allows for efficient metered pumping and integration into automated mixing setups. We ship in lined drums chosen specifically for compatibility, preventing leaching or reaction between container material and product. Over years we consultants reduced average residue levels through repeated tweaks in our quenching and extraction steps, sometimes inspired by customer-driven field reports. On several occasions, studies in external labs confirmed how impurities could skew active ingredient output—reinforcing our dedication to process purity.
Industry buyers regularly compare closely related dimethyl and mono-methyl derivatives, as well as analogues where chloro substitution appears at different phenyl ring positions. Our technical advisers note that moving the methyl or chloro groups changes electronic properties and reactivity—sometimes subtly, sometimes more obviously depending on the subsequent synthesis. The 4-chloro and 2-methyl positions, specifically, optimize coupling efficiency in certain branded insecticide families. Analytical feedback shows alternate substitution sites cause issues reconciling yield and purity at scale.
Team members familiar with comparative quality testing underline another point: regulated impurities matter, but so does storage stability. Past experience with less stable intermediates forced end-users to manage short shelf-lives or rapid color changes, demanding frequent retesting. We refined our formulation and packaging based on extensive storage trials spanning several weather cycles. Supply chain partners can better predict performance with the confidence that our formulation maintains clarity and potency over time, avoiding costly disposal or failed synthesis batches.
Our journey with this intermediate tracks closely with the evolution of process analytics in the chemical industry. Early reliance on batch chromatography and manual titrations gave way to in-line FTIR monitoring, automatic crystallizer controls, and tighter solvent recycling protocols. Storage tankages feeding into final product drums sit under temperature and humidity supervision. The team maintains logs on every batch, with digital systems alerting supervisors if reaction rates fall outside a narrow window, often signalling a contamination risk or utility failure.
Regular communication with synthetic chemists pushes us to strengthen our process discipline. Many customers pursue stricter environmental and regulatory requirements each year—our technical service group frequently participates in audit calls, fielding questions about both process steps and impurity management. While some manufacturers adjust process parameters reactively to complaints, we devote morning standup meetings to possible continuous improvements. In 2022, feedback from a laboratory in Europe spotlighted a minor point of dissolution rate in cold weather shipments; change to insulation and anhydrous protocols followed soon after.
Downstream producers of fine agrochemical intermediates expect manufacturers to maintain rigorous environmental controls. As one of the first operations in our region to implement a closed-loop solvent recovery system, our site cut not only raw material waste but also overall emissions. Regulatory shifts prompted us to switch to greener process variants, using less hazardous reagents and reducing aqueous effluent. Partner audits sometimes arrive with little lead time, but years of practice in maintaining compliant records at every shift ensure smooth walkthroughs.
Several major pesticide registrants operate under stricter legislative scrutiny, especially in Europe and North America. The presence of specific residuals—whether solvents, phenolic byproducts, or halogenated traces—gets regular scrutiny during downstream approval. We regularly engage both local environmental protection bureaus and multinational certifying bodies. Input from their audits and our own internal compliance drives our investment in better waste reduction and safe storage protocols. The transition to more sustainable processes did not come overnight, but now supports a steady reduction in both cost and environmental load.
Research organizations, from multinationals to university groups, approach us for lot samples as they probe new synthetic routes for evolving pesticide challenges. Requests for custom purity runs often prompt technical discussions and sometimes lead to process adaptations. One series of collaborations with a crop science group focused on targeting resistant insect populations in tropical crops resulted in tweaking our purification method to avoid a recurring minor impurity. The back-and-forth between their bioassay specialists and our plant engineers was intensive, driving toward a solution that eventually broadened our specification envelope.
Occasionally, more niche requests come in. Researchers investigating alternative energetic materials for industrial applications once reached out for closely monitored impurity handling at a micro scale, which meant adapting cleaning protocols upstream of regular batch runs. Another example came from a biotech startup focusing on targeted weed management; they used our compound as a scaffold for libraries of experimental actives. Our lab staff provided stability and compatibility data on request, without which the project would have stalled—or worse, run into safety concerns during scale-up.
Our longstanding technical staff often answer customer questions about on-site handling, even beyond what standard documentation covers. Industrial sites sometimes need help adapting automated dosing systems, especially where this compound's relatively low freezing point creates challenges in cooler climates. We support new customers through detailed walkthroughs of our packaging, which comes with clear storage guidelines developed through internal and customer-driven field studies. Reports of discoloration or off-odors rarely surface, thanks to evolving quality assurance and logistics protocols focused on temperature and light stability.
Most end users maintain closed system liquid transfers, cutting vapor exposure. Operators trained in chemical handling use the recommended PPE, minimizing risk during transfer or blending. Unexpected spills might create waste streams—years of working on process safety improvement have shown us the value of swift, documented cleanup and recovery. Feedback loops from environmental reporting guide our internal hazard training as regulatory standards heighten in multiple markets. Investment in clear, upfront risk information builds trust both with procurement teams and production line staff handling bulk deliveries.
Manufacturers of finished crop protection products emphasize downstream transformations that start with the reliability of their raw materials. Differences in impurity profiles or aging behavior translate into real-world performance gaps. Early in our relationship with some large agricultural chemical clients, their feedback kept returning to the theme of repeatability: active ingredient yields, consistency in downstream steps, and reliable degradation profiles matter, especially as weather and environmental pressures shift from year to year.
Technical experts in the field correlate improved weed and pest control with the tailored molecular structure of inputs. The 4-chloro-2-methyl substituted phenyl ring delivers the needed balance of reactivity and selectivity, limiting unwanted catabolism or volatilization during final product application. Unlike some legacy intermediates, this compound supports more stable formulation for shelf-ready products used on staple crops across a range of climates. Real gains show up in grower survey data and success rates of integrated pest management programs. These field-level victories often trace back to upstream improvements—small tweaks in our purification process and storage conditions resonate all the way to increased yield per hectare.
Our partnership model depends on regular information exchange between lab staff, application chemists, and R&D specialists at both our end and the user site. Many formula changes or process tweaks begin with a discrepancy noted in field trials or a request for a new impurity threshold. We use that feedback for continuous improvement. In a recent example, farmers reported issues related to off-spec intermediate by other suppliers, causing low active ingredient release during spray trials. By supplying samples with tighter impurity control and working through root cause analysis, we enabled our customers’ process recovery and restored field performance in record time.
The willingness to invest in fine-tuning and process transparency has marked us as a supportive partner, rather than simply a bulk material provider. We maintain training sessions for distributors’ technical teams, translating the realities of chemical manufacturing into actionable checklists for logistics and handling. Our experience recalls times when lack of communication led to batch failures or regulatory complaints; now routine updates and transparent supply chain data help our users anticipate and manage even unusual shipment situations.
The agriculture and specialty chemical sectors face scrutiny over the environmental footprint and long-term safety of their raw materials. Our customers ask pointed questions about life cycle impact, not just cost per drum or on-paper assay numbers. Our manufacturing site responded with comprehensive waste tracking, expanded solvent recycling, and annual upgrades to emissions controls. Transitioning to more bio-based solvents lowered risk across several lines, helping to score better in third-party sustainability audits.
Collaboration with our regional industry association encouraged benchmarking of our energy and water usage per ton of product. Areas needing attention received targeted investment—a newer heat integration system made our distillation units more efficient, so energy inputs per batch dropped. Real reductions in both water use and waste generation followed, helping to reassure both customers and regulators that we understand the chain of responsibility in chemical manufacturing.
Longer-term challenges persist, particularly around supply chain volatility and shifts in regulatory frameworks worldwide. Ocean freight disruptions or sudden changes in environmental restrictions can require rapid adaptation. Proactive sourcing of key starting materials, plus keeping lines of communication open with critical partners, help us maintain steady supply. Being a primary manufacturer, we recognize our obligation to buffer downstream customers from external shocks as much as possible. Investments in plant flexibility and staff cross-training mean we can adjust to demand spikes, new impurity requirements, or alternate synthesis pathways without major downtime.
On the technical side, pressure grows to further cut residual solvent levels and drive batch-to-batch analytical consistency. Teams keep up to date on analytical advances and validation trends—yearly upgrades to both our QC lab and IT infrastructure allow quicker turnaround for release testing, which in turn gives customers confidence for audit and registration submissions. We work with both industry partners and academic researchers, supporting early feasibility studies for new routes where this intermediate can open doors for safer or more sustainable end products.
Our story with N-(4-Chloro-2-Methylphenyl)-N',N'-Dimethylformamidine mirrors broader trends in the fine chemical industry: increased specialization, closer technical partnerships, and fierce attention to both quality and compliance. Our reputation rests not just on an ability to supply a consistently high-grade intermediate, but also on a willingness to evolve processes and documentation alongside customers’ changing needs. Experienced plant operators, analysts, and technical support personnel all play a role—collectively, their insight and dedication shape our product’s impact downstream.
New registration hurdles, growing environmental focus, and pressure for more robust performance data will only strengthen the need for close collaboration. Our investment in training, analytics, and sustainable operations ensures we remain responsive as markets evolve. Feedback from growers, formulators, and regulatory bodies loops back to inform our next process upgrades. Operating as the true manufacturer, not just a middleman, lets us maintain closer engagement and faster cycles of improvement. The practical experience gained through thousands of tons shipped, dozens of process modifications, and hundreds of technical discussions feeds a culture focused on reliability and applied expertise.
For those seeking a reliable, high-purity intermediate for critical pesticide and specialty applications, we stand behind the value of N-(4-Chloro-2-Methylphenyl)-N',N'-Dimethylformamidine, shaped by years of industry collaboration, adaptation, and a commitment to responsible production.